Examples of oscillatory motion
vibrating strings, swinging of the object,etc.
The time taken for one complete oscillation
Period
energies from oscilating object
Kinetic Energy and Potential energy
What is a pendulum?
any mass suspended on a string, rope, or other arms that can swing back and forth
the spring constant is directly proportional with...
The force
Examples of periodic motion in our live
motion of hands of the clock, motion of planets around the sun etc.
Unit of measurement of amplitude
Meter
Energy due to its motion
Kinetic Energy
The period of oscillation of the pendulum depends on its ...
length
The formula to calculate the period

The other word of the rest position
The equilibrium position
The number of cycles\oscillations per second
Frequency
state a point during oscillating process, which has maximum potential energy
maximum displacement
When is the velocity of the pendulum greatest?
At the bottom of the swing.
find the period of oscillating spring which has spring constant 5.5 N/m and a mass of 150 g hangs on the spring (4 significant figure)
1.038 s
s.h.m equation when t = 0 (start), the displacement at the equilibrium position
x = xosin(wt)
Unit of measurement of Frequency
Hertz
The formula of the kinetic energy of s.h.m
KE = 1/2m ω2 (xo2 – x2),
How could you increase the amount of time that it takes for the pendulum to make a full swing?
Increase the length of the pendulum.
an oscillating spring has a frequency of 2.5 Hz. Find the mass hangs on it if the spring has a spring constant of 8.0 N/m. (in gram)
32.4 gram
defined as The motion of a particle about a fix point such that its acceleration is proportional to displacement from the fix point and its directed toward the point
Simple Harmonic Motion
Maximum displacement from the rest position
Amplitude
A particle of mass 80g oscillates in simple harmonic motion with angular frequency 12.5 rad/s-1 and amplitude 25 mm. Calculate the total energy during the oscillation
3.9 x 10-3 J
The period of oscillation of a simple gravity pendulum depends on 1)... and 2)...
the length of the pendulum and on the magnitude of the gravitational acceleration.
The period of oscillation of a spring depends on 1)... and 2)...
its mass and spring constant